void SetGauge(Simova s)
{
if (aGauge1.Value > s.Average || aGauge1.Value < s.Average)
{
float diff = s.Average - aGauge1.Value;
if (Math.Abs(diff) < 2)
{
aGauge1.Value += Math.Sign(diff) * (float)0.001 * trackBar1.Value;
}
else if (Math.Abs(diff) < 5)
{
aGauge1.Value += Math.Sign(diff) * (float)0.005 * trackBar1.Value;
}
else if (Math.Abs(diff) < 10)
{
aGauge1.Value += Math.Sign(diff) * (float)0.01 * trackBar1.Value;
}
else if (Math.Abs(diff) < 50)
{
aGauge1.Value += Math.Sign(diff) * (float)0.05 * trackBar1.Value;
}
//else if(Math.Abs(diff) > trackBar1.Value * 0.1)
//{
// aGauge1.Value += trackBar1.Value * Math.Sign(diff) * (float)0.1;
//}
else
{
aGauge1.Value += diff;
}
}
}
public LevelMeterPanel(ISharpControl control)
{
InitializeComponent();
_controlInterface = control;
ToolWin = new LevelMeterTool();
ToolWin = new LevelMeterTool();
ToolWin.Show();
ToolWin.Visible = false;
OnLevelUpdateEvent = new OnLevelUpdate(ToolWin.OnLevelUpdate);
_fft_buffer = new byte[_controlInterface.FFTResolution];
_smaTunedFrequecy = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedPeakPowerBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
trackBar1.Value = 100;
UpdateTimer = new Timer();
UpdateTimer.Interval = _UPDATE_TIMER_INTERVALL;
UpdateTimer.Tick += new EventHandler(UpdateTimer_Tick);
MeasureTimer = new Timer();
MeasureTimer.Interval = _MEASURE_TIMER_INTERVALL;
MeasureTimer.Tick += new EventHandler(MeasureTimer_Tick);
Init();
}
public LevelMeterPanel(ISharpControl control)
{
InitializeComponent();
_controlInterface = control;
ToolWin = new LevelMeterTool();
ToolWin = new LevelMeterTool();
ToolWin.Show();
ToolWin.Visible = false;
OnLevelUpdateEvent = new OnLevelUpdate(ToolWin.OnLevelUpdate);
_fft_buffer = new byte[_controlInterface.FFTResolution];
_smaTunedFrequecy = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedPeakPowerBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
trackBar1.Value = 100;
UpdateTimer = new Timer();
UpdateTimer.Interval = _UPDATE_TIMER_INTERVALL;
UpdateTimer.Tick += new EventHandler(UpdateTimer_Tick);
MeasureTimer = new Timer();
MeasureTimer.Interval = _MEASURE_TIMER_INTERVALL;
MeasureTimer.Tick += new EventHandler(MeasureTimer_Tick);
Init();
}
void MeasureTimer_Tick(object sender, EventArgs e)
{
if (!_controlInterface.IsPlaying)
{
if (_smaTunedFrequecy.IsValid)
{
_smaTunedFrequecy = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedPeakPowerBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
}
return;
}
_controlInterface.GetSpectrumSnapshot(_fft_buffer, POWERLEVEL_MIN, 0);
_smaTunedFrequecy.Add(GetPowerTunedFreq());
_smaTunedBandwidth.Add(GetPowerTunedBandwith());
_smaTunedPeakPowerBandwidth.Add(GetPeakPowerTunedBandwith());
}
public LevelMeterPanel(ISharpControl control)
{
InitializeComponent();
_controlInterface = control;
InitToolWindow();
LoadOptions();
_fft_buffer = new float[_controlInterface.FFTResolution];
_smaTunedFrequecy = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedPeakPowerBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
UpdateTimerInit();
MeasureTimerInit();
GuiInit();
}
public LevelMeterPanel(ISharpControl control)
{
InitializeComponent();
_controlInterface = control;
InitToolWindow();
LoadOptions();
_fft_buffer = new float[_controlInterface.FFTResolution];
_smaTunedFrequecy = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedPeakPowerBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
UpdateTimerInit();
MeasureTimerInit();
GuiInit();
}
void GetPowerThreadFunc(object parameter)
{
while (true)
{
if (!_controlInterface.IsPlaying)
{
if (_smaTunedFrequecy.IsValid)
{
_smaTunedFrequecy = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedPeakPowerBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
}
return;
}
_controlInterface.GetSpectrumSnapshot(_fft_buffer, POWERLEVEL_MIN, 0);
_smaTunedFrequecy.Add(MyLib.GetPowerTunedFreq());
_smaTunedBandwidth.Add(MyLib.GetPowerTunedBandwith());
_smaTunedPeakPowerBandwidth.Add(MyLib.GetPeakPowerTunedBandwith());
Thread.Sleep(_MEASURE_TIMER_INTERVALL);
}
}
void SetGauge(Simova s)
{
if (aGauge1.Value > s.Average || aGauge1.Value < s.Average)
{
float diff = s.Average - aGauge1.Value;
if ( Math.Abs(diff) < 2 )
{
aGauge1.Value += Math.Sign(diff) * (float)0.001 * trackBar1.Value;
}
else if (Math.Abs(diff) < 5)
{
aGauge1.Value += Math.Sign(diff) * (float)0.005 * trackBar1.Value;
}
else if (Math.Abs(diff) < 10)
{
aGauge1.Value += Math.Sign(diff) * (float)0.01 * trackBar1.Value;
}
else if (Math.Abs(diff) < 50)
{
aGauge1.Value += Math.Sign(diff) * (float)0.05 * trackBar1.Value;
}
//else if(Math.Abs(diff) > trackBar1.Value * 0.1)
//{
// aGauge1.Value += trackBar1.Value * Math.Sign(diff) * (float)0.1;
//}
else
{
aGauge1.Value += diff;
}
}
}
void MeasureTimer_Tick(object sender, EventArgs e)
{
if (!_controlInterface.IsPlaying)
{
if (_smaTunedFrequecy.IsValid)
{
_smaTunedFrequecy = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedPeakPowerBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
}
return;
}
_controlInterface.GetSpectrumSnapshot(_fft_buffer);
_smaTunedFrequecy.Add(GetPowerTunedFreq());
_smaTunedBandwidth.Add(GetPowerTunedBandwith());
_smaTunedPeakPowerBandwidth.Add(GetPeakPowerTunedBandwith());
}
public void TestThis()
{
Simova Sma = new Simova(5, 0);
Console.WriteLine(Sma.Add(1).ToString());
Console.WriteLine(Sma.BufferToString());
Console.WriteLine(Sma.Add(2).ToString());
Console.WriteLine(Sma.BufferToString());
Console.WriteLine(Sma.Add(3).ToString());
Console.WriteLine(Sma.BufferToString());
Console.WriteLine(Sma.Add(4).ToString());
Console.WriteLine(Sma.BufferToString());
Console.WriteLine(Sma.Add(5).ToString());
Console.WriteLine(Sma.BufferToString());
Console.WriteLine(Sma.Add(6).ToString());
Console.WriteLine(Sma.BufferToString());
Console.WriteLine(Sma.Add(7).ToString());
Console.WriteLine(Sma.BufferToString());
if (Sma.Add(8) != 6)
{
throw new Exception("Simova selftest failed!");
}
}
void SetGauge(Simova s)
{
if (aGauge1.Value > s.Average || aGauge1.Value < s.Average)
{
float diff = s.Average - aGauge1.Value;
if (Math.Abs(diff) < 2)
{
aGauge1.Value += Math.Sign(diff) * (float)0.001 * tbSmoothing.Value;
}
else if (Math.Abs(diff) < 5)
{
aGauge1.Value += Math.Sign(diff) * (float)0.005 * tbSmoothing.Value;
}
else if (Math.Abs(diff) < 10)
{
aGauge1.Value += Math.Sign(diff) * (float)0.01 * tbSmoothing.Value;
}
else if (Math.Abs(diff) < 50)
{
aGauge1.Value += Math.Sign(diff) * (float)0.05 * tbSmoothing.Value;
}
else
{
aGauge1.Value += diff;
}
}
}
void GetPowerThreadFunc(object parameter)
{
while (true)
{
if (!_controlInterface.IsPlaying)
{
if (_smaTunedFrequecy.IsValid)
{
_smaTunedFrequecy = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
_smaTunedPeakPowerBandwidth = new Simova(_SIMPLE_AVERAGE_SAMPLE_CNT, _SIMPLE_AVERAGE_MIN);
}
return;
}
_controlInterface.GetSpectrumSnapshot(_fft_buffer, POWERLEVEL_MIN, 0);
_smaTunedFrequecy.Add(MyLib.GetPowerTunedFreq());
_smaTunedBandwidth.Add(MyLib.GetPowerTunedBandwith());
_smaTunedPeakPowerBandwidth.Add(MyLib.GetPeakPowerTunedBandwith());
Thread.Sleep(_MEASURE_TIMER_INTERVALL);
}
}